Atomization extension set and atomization equipment

Abstract

The utility model relates to an atomizing extension set and atomizing equipment. An atomizing assembly of the atomizing extension set comprises an inner shell and an atomizing assembly, and an input end is connected with the inner shell through the atomizing assembly; the input end is used for inputting atomized liquid to the fog making assembly; the electric control assembly is connected with the fog making assembly and the air supply assembly and used for controlling the fog making assembly to atomize the atomized liquid, and atomized liquid drops are formed in the inner shell and output through the air supply assembly; and the mounting assembly is connected with the inner shell and is used for mounting or supporting the atomization extension set. On one hand, separation from the main control structure and the liquid storage container is achieved, atomized liquid is received and atomized in the atomization extension set, the situation that atomized liquid drops intrude into the main control structure to cause damage is avoided, and therefore the main control structure is protected; and on the other hand, the atomization extension set is easy to move and is not limited by the position of the main control structure and the position of the liquid storage container, and compared with a traditional integrated atomizer, one or more atomization extension sets can be arranged more flexibly, so that a better atomization effect is achieved.

Description

TECHNICAL FIELD

[0001] The present application relates to the field of split atomization, in particular to an atomization slave and an atomization device. BACKGROUND

[0002] An atomizer is a device for atomizing a test solution. Depending on different purposes, there are various types of atomizers, such as an air humidifier, a medical atomizer, a plant disinfection and sterilization atomizer, an agricultural fertilization and pesticide application atomizer, and an electronic cigarette atomizer.

[0003] A conventional atomizer is integrated, in which a main control structure, an air compressor, a liquid storage container, and an atomization device are made into one machine. This results in a relatively fixed position of the atomization device, which can only move together with the main control structure and the liquid storage container, thereby causing inconvenience in use. CONTENT OF THE INVENTION

[0004] Therefore, it is necessary to provide an atomization slave and an atomization device.

[0005] In one embodiment of the present application, an atomization slave includes an atomization assembly, an input end, a blowing assembly, an electric control assembly, and a mounting assembly.

[0006] The atomization assembly includes an inner housing and a fogging assembly, and the input end is connected to the inner housing through the fogging assembly.

[0007] The input end is configured to input an atomization liquid to the fogging assembly.

[0008] The electric control assembly is connected to the fogging assembly and the blowing assembly, respectively, and is configured to control the fogging assembly to atomize the atomization liquid, form atomization droplets in the inner housing, and output the atomization droplets under the action of the blowing assembly.

[0009] The mounting assembly is connected to the inner housing, and the mounting assembly is configured to mount or support the atomization slave.

[0010] The atomization slave described above, through the cooperation of the atomization assembly, the input end, the blowing assembly, the electric control assembly, and the mounting assembly, on the one hand, achieves a separation from the main control structure and the liquid storage container, atomizes the atomization liquid in the atomization slave, avoids the atomization droplets from invading the main control structure and causing damage, thereby protecting the main control structure; on the other hand, the atomization slave is easy to move and is not limited by the positions of the main control structure and the liquid storage container. Compared with the conventional integrated atomizer, one or more atomization slaves can be more flexibly arranged, thereby achieving a better atomization effect.

[0011] In one embodiment, the inner housing is provided with an atomization cavity.

[0012] The atomizing assembly comprises an atomizing nozzle arranged in the atomizing cavity, the input end is used for inputting atomizing liquid to the atomizing nozzle, and the atomizing nozzle is used for atomizing the atomizing liquid to form atomized droplets in the atomizing cavity.

[0013] In one of the embodiments, the atomizing substation further comprises an outer shell, and the outer shell is provided with a mounting cavity;

[0014] The inner shell, the atomizing assembly and the electric control assembly are arranged in the mounting cavity;

[0015] The input end is arranged on the outer shell and connected to the atomizing assembly through the outer shell;

[0016] The mounting assembly is connected to the outer shell.

[0017] In one of the embodiments, the atomizing assembly further comprises a chain atomizing core arranged in the mounting cavity, the input end is used for inputting chain atomizing agent to the chain atomizing core, and the chain atomizing core is used for atomizing the chain atomizing agent and sending into the atomizing cavity through the air supply assembly.

[0018] In one of the embodiments, the mounting cavity is arranged to penetrate through the outer shell, and the atomizing substation further comprises a backstop, and the backstop seals a mounting cavity input end of the mounting cavity; or,

[0019] The air supply assembly is arranged in the atomizing cavity; the atomizing substation is provided with an air inlet communicating with the air supply assembly on the outer shell or the backstop of the atomizing substation, and the air supply assembly supplies air to an atomizing end of the mounting cavity.

[0020] In one of the embodiments, the input end comprises a gas pipe and a liquid pipe;

[0021] The atomizing substation inputs high-pressure gas to the atomizing nozzle through the gas pipe and inputs liquid medicine in the atomizing liquid to the atomizing nozzle through the liquid pipe;

[0022] The atomizing nozzle atomizes the liquid medicine to form atomized droplets in the atomizing cavity and outputs.

[0023] In one of the embodiments, the input end further comprises a chain atomizing agent pipe, a return pipe, a control wire pipe and a power line pipe;

[0024] The atomizing substation inputs chain atomizing agent to the chain atomizing core of the atomizing assembly through the chain atomizing agent pipe, the chain atomizing core atomizes the chain atomizing agent and sends into the atomizing cavity under the action of the air supply assembly;

[0025] The atomizing substation is used for returning atomized droplets with too large particle size and remaining in the atomizing cavity to a liquid medicine barrel or a waste liquid barrel through the return pipe.

[0026] The atomizing unit is used to connect to the control line to the electronic control component via the control conduit, and to connect to the power line to the electronic control component via the power conduit.

[0027] In one embodiment, the mounting assembly includes a mounting bracket, a rotary motor, and a connecting bracket; the mounting bracket is used to mount or support the atomizing unit, the rotary motor is connected to the electronic control assembly via a connecting line, and the rotary motor is connected to both the mounting bracket and the connecting bracket to drive the connecting bracket to rotate relative to the mounting bracket, and the connecting bracket is connected to the inner housing.

[0028] In one embodiment, the atomizing unit further includes an electric pump, and the input terminal is connected to the atomizing component via the electric pump.

[0029] In one embodiment, an atomizing device includes an atomizing main unit, a delivery pipeline, and an atomizing sub-unit as described in any embodiment;

[0030] The atomizing main unit and the atomizing sub-unit are connected through the delivery pipeline. Attached Figure Description

[0031] To more clearly illustrate the technical solutions in the embodiments of this application or the conventional technology, the drawings used in the description of the embodiments or the conventional technology will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0032] Figure 1 This is a schematic diagram of the structure of an embodiment of the atomizing unit described in this application.

[0033] Figure 2 for Figure 1 Another schematic diagram of the embodiment shown.

[0034] Figure 3 for Figure 2 An exploded view of a portion of the structure of the embodiment shown.

[0035] Figure 4 for Figure 3 A partial enlarged structural diagram of the embodiment shown.

[0036] Figure 5 for Figure 3 Another schematic diagram of a portion of the structure of the embodiment shown.

[0037] Figure 6 for Figure 5 Another schematic diagram of the embodiment shown.

[0038] Figure 7 Connection diagram of an embodiment of the atomization device described in the present application.

[0039] Reference signs: atomization device 100, atomization main machine 200, atomization extension machine 300, outer shell 310, mounting cavity 311, support 312, mounting cavity input end 313, mist outlet end 314, inner shell 320, atomization cavity 321, atomization nozzle 322, backflow joint 323, positioning reinforcing rib 324, spray port 325, chain mist core 330, input end 340, gas conveying pipe 341, liquid medicine pipe 342, chain mist agent pipe 343, backflow pipe 344, control wire pipe 345, power wire pipe 346, electric pump 350, backflow pump 351, backstop 360, air inlet 361, air supply assembly 370, electric control assembly 380, mounting assembly 390, mounting bracket 391, rotary motor 392, connection bracket 393, conveying pipeline 400. DETAILED DESCRIPTION

[0040] In order to make the above objectives, features and advantages of the present application more apparent, specific embodiments of the present application are described in detail below with reference to the accompanying drawings. In the following description, a large number of specific details are set forth in order to provide a thorough understanding of the present application. However, the present application can be implemented in many different ways other than those described herein, and those skilled in the art can make similar improvements without departing from the spirit of the present application, and therefore the present application is not limited to the specific embodiments disclosed below.

[0041] It should be noted that when a component is referred to as being "fixed to" or "disposed on" another component, it can be directly on the other component or there can be a middle component. When a component is referred to as being "connected to" another component, it can be directly connected to the other component or there can be a middle component. The terms "vertical", "horizontal", "up", "down", "left", "right", and similar expressions used in the description of the present application are for illustrative purposes only and do not indicate the only implementation.

[0042] In addition, the terms "first", "second", etc. are used only for descriptive purposes and should not be construed as indicating or implying relative importance or an implied indication of the number of technical features indicated. Therefore, the features defined as "first", "second" can explicitly or implicitly include at least one of the features. In the description of the present application, the meaning of "a plurality of" is at least two, such as two, three, etc., unless otherwise specifically limited.

[0043] In the present application, unless specifically defined and limited otherwise, the first feature is "on", "under", "above" or "over" the second feature, which can be that the first feature is in direct contact with the second feature, or the first feature is indirectly in contact with the second feature through an intermediate medium. Moreover, the first feature is "on", "above" and "over" the second feature, which can be that the first feature is directly above or obliquely above the second feature, or only indicates that the first feature is higher than the second feature in horizontal height. The first feature is "under", "below" and "under" the second feature, which can be that the first feature is directly below or obliquely below the second feature, or only indicates that the first feature is lower than the second feature in horizontal height.

[0044] Unless otherwise defined, all technical and scientific terms used in the specification of the present application have the same meaning as commonly understood by one of ordinary skill in the art to which the present application belongs. The terms used in the specification of the present application are only for the purpose of describing specific embodiments and are not intended to limit the present application. The term "and / or" used in the specification of the present application includes any and all combinations of one or more related listed items.

[0045] The present application discloses an atomization sub-machine and an atomization device, which include part or all of the technical features of the following embodiments; that is, the atomization sub-machine and the atomization device include part or all of the following structures. In one embodiment of the present application, an atomization sub-machine includes an atomization assembly, an input end, a blowing assembly, an electric control assembly and a mounting assembly; the atomization assembly includes an inner housing and a fogging assembly, the input end is connected with the inner housing through the fogging assembly; the input end is used for inputting atomization liquid to the fogging assembly; the electric control assembly is connected with the fogging assembly and the blowing assembly respectively, and is used for controlling the fogging assembly to atomize the atomization liquid to form atomization droplets in the inner housing and output through the blowing assembly; the mounting assembly is connected with the inner housing, and the mounting assembly is used for mounting or supporting the atomization sub-machine. The above-mentioned atomization sub-machine, through the cooperation of the atomization assembly, the input end, the blowing assembly, the electric control assembly and the mounting assembly, on the one hand, realizes the separation from the main control structure and the liquid storage container, atomizes in the atomization sub-machine by receiving the atomization liquid, avoids the atomization droplets from invading the main control structure to cause damage, thereby protecting the main control structure; on the other hand, the atomization sub-machine is easy to move and is not limited by the position of the main control structure and the liquid storage container. Compared with the traditional integrated atomizer, one or more atomization sub-machines can be more flexibly arranged, thereby achieving better atomization effect. The following will be described in detail in combination with Figures 1 to 7 The atomization sub-machine and the atomization device will be described in detail.

[0046] In one embodiment, an atomization sub-machine 300 as shown in Figure 1 includes an input end 340 and a mounting assembly 390; in combination with Figure 2 and Figure 3The atomization sub-station 300 further comprises an atomization assembly, an air supply assembly 370 and an electric control assembly 380. It is to be noted that Figure 3 Only part of the structure of the atomization sub-station is shown, and some pipelines and screws are not shown.

[0047] In this embodiment, the atomization assembly comprises an inner housing 320 and a fogging assembly, and the input end 340 is connected to the inner housing 320 through the fogging assembly; the input end 340 is used for inputting atomized liquid to the fogging assembly, that is, the input end 340 is used for inputting atomized liquid from the outside world and delivering the atomized liquid to the fogging assembly; the electric control assembly 380 is connected to the fogging assembly and the air supply assembly 370 respectively, and is used for controlling the fogging assembly to atomize the atomized liquid, forming atomized droplets in the inner housing 320 and being output under the action of the air supply assembly 370, which can also be understood as being output through the air supply assembly 370; the mounting assembly 390 is connected to the inner housing 320, and the mounting assembly 390 is used for mounting or supporting the atomization sub-station 300, that is, the atomization sub-station 300 as a whole is mounted on the outside through the mounting assembly 390 or is supported on the outside through the mounting assembly 390 as a support frame, that is, the rest of the atomization sub-station 300 except the mounting assembly 390 is directly or indirectly mounted on the outside through the mounting assembly 390 or is supported on the outside through the mounting assembly 390 as a support frame. As an example, the atomization sub-station 300 as a whole is mounted on a beam in a room through the mounting assembly 390, or is supported up through the mounting assembly 390 as a support frame. As an example, for the heating atomization mode, the electric control assembly 380 controls the fogging assembly to heat to a set temperature and then atomize, and controls the air supply assembly 370 such as a fan to operate. Such a structure design, through the cooperation of the atomization assembly, the input end 340, the electric control assembly 380 and the mounting assembly 390, on the one hand, realizes separation from the main control structure and the liquid storage container, atomizes in the atomization sub-station 300 by receiving atomized liquid, avoids atomized droplets from invading the main control structure to cause damage, thereby protecting the main control structure; on the other hand, the atomization sub-station 300 is easy to move and is not limited by the position of the main control structure and the liquid storage container. Compared with the traditional integrated atomizer, one or more atomization sub-stations 300 can be more flexibly arranged, thereby achieving better atomization effect.

[0048] As an example, in each embodiment, the input end 340 is used for receiving liquid pumped from a remote end for atomization, that is, atomized liquid, delivering the liquid into the fogging assembly, atomizing the atomized liquid by the fogging assembly, and forming atomized droplets. As an example, the input end 340 is also used for filtering the liquid to prevent the electric pump 350 and the structure such as the atomization nozzle 322 mentioned below from being blocked, thereby avoiding equipment operation failure caused by blockage. In one of the embodiments, in combination with Figure 4 andFigure 5 The inner housing 320 is provided with an atomizing cavity 321, and the atomizing assembly includes an atomizing nozzle 322 arranged in the atomizing cavity 321. The input end 340 is used for inputting atomized liquid to the atomizing nozzle 322, and the atomizing nozzle 322 is used for atomizing the atomized liquid to form atomized droplets in the atomizing cavity 321. In this embodiment, the inner housing 320 is provided with a spray port 325 at one end of the atomizing cavity 321. The atomizing assembly atomizes liquid, such as filtered liquid, to form atomized droplets. The atomized droplets are sprayed out of the atomizing cavity 321 through the atomizing nozzle 322 and are sprayed outside the atomizing cavity 321 through the spray port 325 under the action of the air supply assembly 370. As an example, the atomizing substation 300 is provided with a backflow joint 323 in the atomizing cavity 321. The backflow joint 323 functions as a backflow filter to backflow excess atomized droplets, such as large-diameter medicine droplets that cannot be sprayed out, to the input end 340, such as through a backflow pipe 344 of the input end 340 to a main control structure or a waste liquid tank. As an example, the atomizing substation 300 is further provided with a backflow pump 351 in the inner housing 320. The backflow joint 323 is further connected to the backflow pipe 344 through the backflow pump 351 to backflow excess atomized liquid remaining in the atomizing cavity 321 to a medicine liquid tank or a waste liquid tank through the backflow pipe 344; that is, the backflow pump 351 is used to backflow excess medicine liquid, such as liquid with large particles, input through the input end 340 or the backflow joint 323 to the medicine liquid tank for reuse or to a waste liquid tank or an output end of the atomized liquid. Each backflow pump 351 and / or electric pump 350 can be further provided with a filter to achieve a filtering function. Such a structure design enables the main control structure and the liquid storage container to be physically isolated from the atomizing substation 300 for spraying and atomizing. Therefore, the main control structure can be truly located outside the spraying area of the atomizing substation 300, such as the atomizing substation 300 being arranged in an agricultural greenhouse and the main control structure and the liquid storage container being arranged outside the agricultural greenhouse, so as to effectively avoid the atomized droplets from invading the main control structure and causing damage to the main control structure and affect the heat dissipation function of the main control structure. Therefore, the safety hidden danger of the fully-sealed main control structure is eliminated, and the main control structure can be designed for convection heat dissipation, so as to be easy to dissipate heat.

[0049] As an example, in one of the embodiments, the inner housing 320 forms a Laval nozzle structure, that is, the atomizing cavity 321 forms a Laval chamber, and the spray port 325 is designed to be upwardly inclined relative to the extension direction of the outer housing 310, so that the lower fluid cannot easily sink downward but flows upward, thereby enabling the medicine liquid to be sprayed higher and farther. Such a structure greatly improves the efficiency and distance of spraying of the medicine mist.

[0050] In one embodiment, the atomizing nozzle 322 atomizes the atomizing liquid in a centrifugal atomization manner, i.e. the atomizing nozzle 322 atomizes the atomizing liquid as a centrifugal atomizer. In one embodiment, the input end 340 includes a gas pipe 341 and a liquid pipe 342; the atomizing subunit 300 inputs high pressure gas to the atomizing nozzle 322 through the gas pipe 341 and inputs the liquid medicine in the atomizing liquid to the atomizing nozzle 322 through the liquid pipe 342; the atomizing nozzle 322 atomizes the liquid medicine in a pneumatic atomization manner, forms atomizing liquid droplets in the atomizing chamber 321 and outputs. As an example, the liquid pipe 342 includes a water pipe and a medicine pipe, and the atomizing nozzle 322 is a two-phase flow atomizing nozzle; the atomizing subunit 300 inputs high pressure gas to the atomizing nozzle 322 through the gas pipe 341, inputs the liquid medicine in the atomizing liquid to the atomizing nozzle 322 through the medicine pipe, and inputs water in the atomizing liquid to the atomizing nozzle 322 through the water pipe; the atomizing nozzle 322 atomizes the liquid medicine or the water in a pneumatic atomization manner, forms atomizing liquid droplets in the atomizing chamber 321 and outputs. In one embodiment, the input end 340 further includes a chain fog pipe 343, a backflow pipe 344, a control line pipe 345 and a power line pipe 346; the atomizing subunit 300 inputs chain fog to the chain fog core 330 of the fog making assembly through the chain fog pipe 343, the chain fog core 330 atomizes the chain fog in a heating atomization manner, and under the action of the air supply assembly 370, the chain fog core 330 is transported into the atomizing chamber 321 to form chain solution fog with the liquid medicine fog or water fog chain solution and output; the atomizing subunit 300 is used to backflow the atomizing liquid droplets with too large particle size and left in the atomizing chamber 321 to the liquid medicine barrel or waste liquid barrel through the backflow pipe 344; the atomizing subunit 300 is used to access the control line to the electric control assembly 380 through the control line pipe 345 and access the power line to the electric control assembly 380 through the power line pipe 346. In this way, the external main unit can transmit signals to the electric control assembly 380 through the control line or wireless signals or the power line.

[0051] For the case without the chain fog core 330 and without inputting chain fog, in one embodiment, the fog making assembly such as the atomizing nozzle 322 only atomizes the liquid medicine, and the air supply assembly 370 blows out the mist droplets with appropriate particle size from the atomizing chamber 321. For the case with the chain fog core 330 and inputting chain fog, in one embodiment, the liquid medicine is atomized into the atomizing chamber 321, the chain fog is also atomized into the atomizing chamber 321, and the two are combined to form chain solution fog, and the air supply assembly 370 blows out the mist droplets with appropriate particle size.

[0052] Due to the different use of objects, the requirements for the droplet size are also different, and some application scenarios will inevitably produce the problem of water droplets, and the water droplets will accumulate at the spray port. If the water droplets carry the medicament, they will fall to the ground near the atomizing sub-machine or the surface of the plant, which will cause excessive damage to the crops and soil pollution. In order to solve this problem, in one of the embodiments, the atomizing sub-machine 300 is provided with a water storage tank at the lower end of the spray port 325 for accumulating water droplets. The water droplets that are not atomized are collected in the water storage tank and transported to the waste tank or returned to the main control structure through the pipeline. It can also be returned to the liquid tank or waste tank through the return pipe 344; in this way, the problem of medicament pollution is avoided.

[0053] In order to ensure the delivery effect of the liquid, in one of the embodiments, the atomizing sub-machine 300 further comprises an electric pump 350, and the input end 340 is connected to the mist-making assembly through the electric pump 350. As an example, the electric pump 350 is used to pump the liquid received by the input end 340 to the mist-making assembly; or the electric pump 350 is used to pump the filtered liquid of the input end 340 to the mist-making assembly. Such a structure design, the electric pump 350 is used to pump the liquid, for example, the atomizing control host machine is used to pump the liquid in the delivery pipe into the atomizing sub-machine 300, which is conducive to ensuring that the mist-making assembly obtains the supply of the liquid transmitted from the input end 340.

[0054] In order to protect the electric control assembly 380, the atomizing assembly and the inner shell 320, in one of the embodiments, the atomizing sub-machine 300 is provided with a protective cover 330, and the protective cover 330 is arranged on the outer shell 310. Figure 5 and Figure 6The atomizing sub-machine 300 further comprises an outer housing 310, which is provided with a mounting cavity 311; the inner housing 320, the atomizing assembly and the electric control assembly 380 are arranged in the mounting cavity 311; the input end 340 is arranged on the outer housing 310 and connects the atomizing assembly through the outer housing 310; and the mounting assembly 390 is connected with the outer housing 310. For the embodiment with the outer housing 310, the mounting assembly 390 is connected with the inner housing 320 through the outer housing 310. In this embodiment, the outer housing 310 is further provided with a support 312 at the position connected with the mounting assembly 390; in cooperation with the embodiment with the rotary motor 392, the atomizing sub-machine 300 can be more stable during rotation. Such a structure design, on the one hand, protects the electric control assembly 380, the atomizing assembly and the inner housing 320 and other structural components by the outer housing 310, so that the atomizing sub-machine 300 forms a whole, which is easy to install and move; on the other hand, in cooperation with the embodiment with the support 312, the support 312 serves as a reinforcing structural component, which improves the structural strength of the connection between the mounting assembly 390 and the outer housing 310 and is beneficial to guarantee the service life of the atomizing sub-machine 300.

[0055] In order to maintain the positional relationship between the inner housing 320 and the outer housing 310, in one of the embodiments, the inner housing 320 is further provided with a positioning reinforcing rib 324, and the inner housing 320 is arranged in the mounting cavity 311 through the positioning reinforcing rib 324; for example, the extending direction of the positioning reinforcing rib 324 relative to the outer housing 310 is arranged in the same way as the extending direction of the inner housing 320 relative to the outer housing 310, so as to improve the connection strength between the inner housing 320 and the outer housing 310 in the extending direction of the outer housing 310 and avoid the deflection of the inner housing 320 relative to the outer housing 310, thereby guaranteeing the atomizing and output of the atomizing sub-machine 300.

[0056] In one embodiment, the installation cavity 311 is arranged to pass through the outer housing 310, and the atomization sub-device 300 further comprises a back baffle 360, which closes an installation cavity input end 313 of the installation cavity 311. In this embodiment, the installation cavity 311 has an installation cavity input end 313 and a mist outlet end 314, wherein the installation cavity input end 313 is closed by the back baffle 360, so that the mist outlet end 314 of the installation cavity 311 matches the atomization cavity 321 and the spray port 325. After the misting assembly of the atomization sub-device 300 atomizes the atomized droplets, the atomized droplets are sprayed out of the atomization cavity 321 through the atomization nozzle 322 in the atomization cavity 321, and are sprayed outside the atomization cavity 321 through the spray port 325. In the illustrated embodiment, the input end 340 is arranged on the back baffle 360, and in other embodiments, the input end 340 can also be arranged on the outer housing 310.

[0057] In one embodiment, the atomization sub-device 300 further comprises a blowing assembly 370, which is arranged in the atomization cavity 321 and connected with the electronic control assembly 380; and the back baffle 360 is provided with an air inlet 361 that communicates with the blowing assembly 370, and the blowing assembly 370 blows air to the mist outlet end 314 of the installation cavity 311. As an example, the blowing assembly 370 comprises a fan, which blows the atomized droplets, i.e. the drug mist, after the misting assembly, such as an aluminum thermal misting assembly and a blowing assembly, atomizes different liquids, respectively, and blows the atomized droplets out of the atomization cavity 321. Such a structure design forms a misting direction with one end blowing air and one end blowing out in the atomization cavity 321. The atomized liquid is received by the misting assembly for atomization, and after atomization, the chain solution is formed, and the chain solution droplets are sprayed out of the atomization cavity 321, and are sprayed outside the atomization cavity 321 through the spray port 325 with the assistance of the blowing assembly 370.

[0058] In one embodiment, in combination with Figure 3 and Figure 4The input end 340 is provided with a gas pipe 341 and a liquid pipe 342. The input end 340 inputs high-pressure gas to the fogging assembly through the gas pipe 341, i.e. the input end 340 inputs gas such as high-pressure gas from the outside through the gas pipe 341. The pressure of the high-pressure gas can be set or adjusted according to actual needs. The high-pressure gas includes air, carbon dioxide or other gas. Moreover, the input end 340 delivers gas to the fogging assembly through the gas pipe 341 and delivers atomized liquid to the fogging assembly through the liquid pipe 342, i.e. the input end 340 inputs atomized liquid from the outside through the liquid pipe 342 and delivers the atomized liquid to the fogging assembly through the liquid pipe 342. The atomizing nozzle 322 of the fogging assembly atomizes the atomized liquid by a pneumatic atomization method to form atomized droplets, which are sprayed into the atomizing cavity 321 and sprayed outside the atomizing cavity 321 with the assistance of the air supply assembly 370. In related embodiments, part of the droplets can also be referred to as aerosol according to the state of the droplets.

[0059] For example, for an embodiment with an electric pump 350, the atomizing extension 300 further includes a first electric pump connected to the liquid pipe 342 and a second electric pump connected to the chain fog pipe 343. The first electric pump is used to pump the liquid in the liquid pipe 342 to the atomizing nozzle 322 of the fogging assembly, and the second electric pump is used to pump the chain fog in the chain fog pipe 343 to the chain fog core 330 of the fogging assembly. The atomization is performed, then the chain fog is dissolved to form chain fog droplets, so as to complete fogging and then spray output. The remaining embodiments are similar and will not be described here.

[0060] As an example, a remote air compressor, with a distance of over 5 meters between the air compressor and the atomizing unit 300, remotely delivers high-pressure gas to the atomizing nozzle 322 for pneumatic atomization of the liquid medicine into a mist. Specifically, in this application, the atomized droplets consist of pneumatic water mist and electrothermal sublimation hot mist. However, the electrothermal-generated hot mist is very hot when sprayed, which could cause devastating damage to the microbial or active ingredients in the medicine. Therefore, a separate atomization chain-dissolving atomization combination scheme is adopted, allowing the electrothermal-generated hot mist to be transported by a fan to the water mist area, and then chain-dissolved with the water mist. This reduces and controls the temperature of the hot mist during transport, thereby ensuring efficacy and achieving a better spraying effect. For example, a liquid medicine can be atomized using pneumatic methods, such as high-pressure gas atomization, to form a low-temperature drug mist, in order to maintain the activity of some temperature-sensitive liquid medicines, such as those containing probiotics or other microorganisms; and alternatively, a chain atomizer can be atomized using heated atomization to form a high-temperature or medium-temperature chain mist, which is then chain-dissolved into chain-dissolved droplets and delivered by wind power. It is understood that the high, medium, or low temperatures are relative and can be designed or adjusted according to actual needs.

[0061] In one embodiment, combined Figure 3 and Figure 5 The mounting assembly 390 includes a mounting bracket 391, a rotary motor 392, and a connecting bracket 393. The mounting bracket 391 is used to mount the atomizing sub-unit 300. The rotary motor 392 is connected to the electronic control assembly 380 via a connecting line, and the rotary motor 392 is connected to both the mounting bracket 391 and the connecting bracket 393 to drive the connecting bracket 393 to rotate relative to the mounting bracket 391. The connecting bracket 393 is connected to the inner housing 320. As an example, in an embodiment with an outer shell 310, the connecting bracket 393 is connected to the outer shell 310 to connect to the inner housing 320 via the outer shell 310. With this structural design, relative to the installation position of the atomizing unit 300, the inner housing 320 can rotate at a certain angle, such as 180 degrees, or even continuously rotate 360 ​​degrees under the action of the rotary motor 392, to evenly cover the sprayed mist in all directions. The same applies to embodiments with an outer housing 310. The atomizing unit 300 is installed via the mounting bracket 391 of the mounting assembly 390, and the rotary motor 392 of the mounting assembly 390 drives the connecting bracket 393 to rotate, thereby causing the outer housing 310 and the inner housing 320 to rotate. This allows the nozzle to spray more and faster, improving efficiency. In operation, the outer housing 310 and the inner housing 320 of the atomizing unit 300 can reciprocate or continuously rotate, effectively ensuring the uniformity of the spray effect of the atomizing unit 300.

[0062] In one embodiment, an atomizing device 100, such as Figure 7 As shown, it includes an atomizing main unit 200, a delivery pipeline 400, and an atomizing sub-unit 300; the atomizing main unit 200 and the atomizing sub-unit 300 are connected through the delivery pipeline 400. The atomizing sub-unit 300 is any of the atomizing sub-units described in any embodiment. As an example, the atomizing main unit 200 has a main control structure and a liquid storage container. With this structural design, the atomizing device 100, on the one hand, separates the atomizing sub-unit 300 from the main control structure and the liquid storage container, atomizing the liquid received in the atomizing sub-unit 300, thus preventing atomized droplets from entering the main control structure and causing damage, thereby protecting the main control structure; on the other hand, the atomizing sub-unit 300 is easy to move and is not limited by the position of the main control structure and the liquid storage container. Compared with traditional integrated atomizers, a single atomizing sub-unit 300 can be set up more flexibly, thus achieving a better atomization effect.

[0063] As an example, the length of the delivery pipeline 400 is greater than or equal to 3 meters. For instance, the atomizing host 200 and the atomizing sub-unit 300 are connected by a delivery pipeline 400 of more than 10 meters. This achieves a long-distance transmission connection between the atomizing host 200 and the atomizing sub-unit 300, thereby facilitating the creation of a separate atomizing device 100 with physical isolation between the atomizing host 200 and the atomizing sub-unit 300.

[0064] For example, in the atomizing device 100, the number of atomizing sub-units 300 is one, two or more, that is, one atomizing host 200 can drive one, two or more atomizing sub-units 300, thereby improving atomization efficiency.

[0065] In other embodiments, after the delivery pipeline 400 is disconnected, the atomizing host 200 can be easily moved to the location of other atomizing sub-units 300, such as from one farm to another, or from one factory to another. This allows one atomizing host 200 to provide atomization control and liquid delivery for multiple atomizing sub-units 300, greatly reducing atomization costs and improving the efficiency of large-scale atomization. It is especially suitable for application in agricultural production and industrial pest control.

[0066] It should be noted that other embodiments of this application also include atomizing sub-machine and atomizing device formed by combining the technical features of the above embodiments.

[0067] Any combination of the technical features in the above-described embodiments can be made, and for the sake of brevity, not all possible combinations are described, however, as long as there is no conflict, any combination of the technical features should be considered within the scope of the present disclosure.

[0068] The above-described embodiments only express several implementation manners of the present application, and the description is relatively specific and detailed, but it should not be understood as a limitation on the patent scope of the application. It should be pointed out that for ordinary skilled persons in the art, several modifications and improvements can be made without departing from the concept of the present application, and these all belong to the protection scope of the present application. Therefore, the patent protection scope of the present application should be subject to the appended claims.

Claims

1. An atomizing distributor (300), characterized in that, It includes an atomizing component, an input terminal (340), an air supply component (370), an electronic control component (380), and an installation component (390). The atomizing component includes an inner shell (320) and a fogging component, and the input end (340) is connected to the inner shell (320) through the fogging component; The input terminal (340) is used to input atomized liquid into the fogging component; The electronic control component (380) is connected to the fogging component and the air supply component (370) respectively, and is used to control the fogging component to atomize the atomized liquid, form atomized droplets in the inner shell (320) and output them under the action of the air supply component (370); The mounting assembly (390) is connected to the inner housing (320), and the mounting assembly (390) is used to mount or support the atomizing sub-unit (300).

2. The atomizing unit (300) according to claim 1, characterized in that, The inner shell (320) has an atomizing chamber (321); The fogging assembly includes an atomizing nozzle (322) disposed in the atomizing chamber (321). The input end (340) is used to input atomizing liquid into the atomizing nozzle (322). The atomizing nozzle (322) is used to atomize the atomizing liquid and form atomized droplets in the atomizing chamber (321).

3. The atomizing unit (300) according to claim 2, characterized in that, The atomizing unit (300) also includes a housing (310), which has a mounting cavity (311). The inner housing (320), the fogging component, and the electronic control component (380) are disposed in the mounting cavity (311); The input terminal (340) is disposed on the outer shell (310) and passes through the outer shell (310) to connect to the fogging component; The mounting assembly (390) is connected to the housing (310).

4. The atomizing unit (300) according to claim 3, characterized in that, The fogging assembly also includes a chain fog core (330) disposed in the mounting cavity (311). The input end (340) is used to input the chain fog agent into the chain fog core (330). The chain fog core (330) is used to atomize the chain fog agent and send it into the atomization cavity (321) through the air supply assembly (370).

5. The atomizing unit (300) according to claim 3, characterized in that, The mounting cavity (311) is configured to penetrate the outer casing (310), and the atomizing unit (300) further includes a rear baffle (360), which closes the mounting cavity input end (313) of the mounting cavity (311); or, The air supply assembly (370) is disposed in the atomizing chamber (321); the atomizing sub-unit (300) has an air inlet (361) that communicates with the air supply assembly (370) on the outer shell (310) or the rear baffle (360) of the atomizing sub-unit (300), and the air supply assembly (370) supplies air to the mist outlet (314) of the mounting cavity (311).

6. The atomizing unit (300) according to claim 2, characterized in that, The input terminal (340) includes an air supply pipe (341) and a medicine supply pipe (342). The atomizing unit (300) inputs high-pressure gas to the atomizing nozzle (322) through the gas supply pipe (341), and inputs the liquid medicine in the atomizing liquid to the atomizing nozzle (322) through the liquid medicine pipe (342). The atomizing nozzle (322) atomizes the liquid medicine, forming atomized droplets in the atomizing chamber (321) and outputting them.

7. The atomizing unit (300) according to claim 6, characterized in that, The input terminal (340) also includes a chain atomizer tube (343), a return tube (344), a control line tube (345), and a power line tube (346). The atomizing unit (300) inputs the chain atomizer to the chain atomizing core (330) of the atomizing component through the chain atomizer tube (343). The chain atomizing core (330) atomizes the chain atomizer and delivers it into the atomizing chamber (321) under the action of the air supply component (370). The atomizing unit (300) is used to return atomized droplets that are too large to the atomizing chamber (321) to the medicine tank or waste tank through the return pipe (344). The atomizing unit (300) is used to connect to the control line to the electronic control component (380) through the control line (345) and to the power line to the electronic control component (380) through the power line (346).

8. The atomizing unit (300) according to claim 1, characterized in that, The mounting assembly (390) includes a mounting bracket (391), a rotary motor (392), and a connecting bracket (393). The mounting bracket (391) is used to mount or support the atomizing unit (300). The rotary motor (392) is connected to the electronic control assembly (380) via a connecting line. The rotary motor (392) is connected to the mounting bracket (391) and the connecting bracket (393) respectively, and is used to drive the connecting bracket (393) to rotate relative to the mounting bracket (391). The connecting bracket (393) is connected to the inner housing (320).

9. The atomizing unit (300) according to any one of claims 1 to 8, characterized in that, The atomizing unit (300) also includes an electric pump (350), and the input terminal (340) is connected to the atomizing component through the electric pump (350).

10. An atomizing device (100), characterized in that, It includes an atomizing main unit (200), a delivery line (400), and an atomizing sub-unit (300) as described in any one of claims 1 to 9. The atomizing host (200) and the atomizing sub-unit (300) are connected through the delivery pipeline (400).

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